DocumentCode
1233859
Title
Extended method of line procedure for the analysis of microwave components with bianisotropic inhomogeneous media
Author
Alú, Andrea ; Bilotti, Filiberto ; Vegni, Lucio
Author_Institution
Univ. of Roma Tre, Dept. of Electron. Eng., Rome, Italy
Volume
51
Issue
7
fYear
2003
fDate
7/1/2003 12:00:00 AM
Firstpage
1582
Lastpage
1589
Abstract
Method of line (MoL) procedure is very useful in the analysis of radiative and transmissive microwave components, but its standard version does not allow for the study of elements with complex substrates. In this work, we first show that components integrated into materials exhibiting the magneto-electric effect (biisotropic and general bianisotropic media) cannot be analyzed following a standard MoL algorithm. Next, we derive an extended MoL numerical tool, which allows for the analysis of components in the presence of any linear medium (even inhomogeneous, bianisotropic and lossy). Such an extension is based on the generalization of the transmission-line equations for a general linear medium, which, in the case in point, are not necessarily decoupled. Furthermore, we present the full coincidence of this new method with the standard MoL in the case of simpler media (i.e., not exhibiting the magneto-electric effect) and, finally, we show some numerical results, obtained analyzing microwave antennas and resonators with bianisotropic and chiral substrates.
Keywords
anisotropic media; chirality; dielectric resonators; inhomogeneous media; magnetoelectronics; method of lines; microstrip antennas; microwave antennas; transmission line theory; MoL algorithm; bi-isotropic media; bianisotropic inhomogeneous media; bianisotropic substrates; chiral substrates; complex substrates; extended MoL numerical tool; extended method of line; general bianisotropic media; linear medium; lossy media; magneto-electric effect; microwave antennas; microwave components; microwave resonators; radiative microwave components; transmission-line equations; transmissive microwave components; Magnetic analysis; Magnetic materials; Microstrip antenna arrays; Microstrip antennas; Microwave devices; Microwave theory and techniques; Nonhomogeneous media; Optical resonators; Partial differential equations; Transmission lines;
fLanguage
English
Journal_Title
Antennas and Propagation, IEEE Transactions on
Publisher
ieee
ISSN
0018-926X
Type
jour
DOI
10.1109/TAP.2003.813595
Filename
1210795
Link To Document